Solar Farm CFD Cooling Optimization
Budget: ₹6,000 – ₹100,000 INR
I want to use CFD to fine-tune the thermal behaviour of my solar farm, with the single goal of making our passive cooling strategy as efficient as possible. Energy output is already satisfactory; what limits further gains is the way heat lingers around the modules, so every degree we can shed without adding active hardware directly improves lifetime and performance.
Here is what I need from you:
• Build or refine a 3-D CFD model of the current array layout, including module surfaces, support frames and the surrounding air domain.
• Simulate typical operating conditions—peak summer sun, low-wind stagnation periods and evening cool-down—to study airflow patterns, temperature fields and hotspots.
• Quantify the present cooling system efficiency for these scenarios and highlight where passive convection or radiation is under-performing.
• Propose geometric or material tweaks (spacing, tilt, surface coatings, baffle or vent placement, etc.) that measurably improve passive heat dissipation.
• Supply a concise report: methodology, boundary conditions, validated results, comparison of before/after temperature profiles and a ranked list of recommended design changes. Include native project files (e.g., Fluent case/data or OpenFOAM setup) so I can rerun the study later.
Suggested tools are ANSYS Fluent, OpenFOAM or a comparable CFD package—whichever you are fastest with. Keep mesh counts reasonable; runtime on a mid-range workstation is preferred. I will share exact module dimensions and site climate data once we start.
Acceptance criteria
1. Temperature reduction targets clearly supported by simulation data.
2. All input files, meshes and post-processing scripts delivered.
3. Report written in clear, reproducible steps so an independent engineer can follow the work.
If this focus on passive cooling efficiency matches your expertise, let’s discuss timelines and any additional data you need to begin.
Here is what I need from you:
• Build or refine a 3-D CFD model of the current array layout, including module surfaces, support frames and the surrounding air domain.
• Simulate typical operating conditions—peak summer sun, low-wind stagnation periods and evening cool-down—to study airflow patterns, temperature fields and hotspots.
• Quantify the present cooling system efficiency for these scenarios and highlight where passive convection or radiation is under-performing.
• Propose geometric or material tweaks (spacing, tilt, surface coatings, baffle or vent placement, etc.) that measurably improve passive heat dissipation.
• Supply a concise report: methodology, boundary conditions, validated results, comparison of before/after temperature profiles and a ranked list of recommended design changes. Include native project files (e.g., Fluent case/data or OpenFOAM setup) so I can rerun the study later.
Suggested tools are ANSYS Fluent, OpenFOAM or a comparable CFD package—whichever you are fastest with. Keep mesh counts reasonable; runtime on a mid-range workstation is preferred. I will share exact module dimensions and site climate data once we start.
Acceptance criteria
1. Temperature reduction targets clearly supported by simulation data.
2. All input files, meshes and post-processing scripts delivered.
3. Report written in clear, reproducible steps so an independent engineer can follow the work.
If this focus on passive cooling efficiency matches your expertise, let’s discuss timelines and any additional data you need to begin.